Atomic-scale STM identifies both C-type (d-wave altermagnetic) and G-type (antiferromagnetic) magnetic configurations in KV2Se2O, both generating similar spin-split electronic structures.
& Chen, G
4 Pith papers cite this work. Polarity classification is still indexing.
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Pith papers citing it
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2026 4verdicts
UNVERDICTED 4representative citing papers
Theoretical analysis of AV2X2O oxychalcogenides predicts dominant equal-spin triplet superconductivity arising from altermagnetic order that forbids conventional singlet pairing.
K-terminated KV2Se2O altermagnetic tunnel junctions achieve TMR up to 10^12% by preserving bulk spin polarization through interfacial passivation and nodal-point spin channels.
Pressure suppresses the density-wave feature in the d-wave altermagnet candidate CsV2Se2O and induces a reproducible, field-suppressible resistive downturn below 3 K suggestive of superconductivity.
citing papers explorer
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Real-space identification of distinct magnetic configurations in a candidate d-wave altermagnet
Atomic-scale STM identifies both C-type (d-wave altermagnetic) and G-type (antiferromagnetic) magnetic configurations in KV2Se2O, both generating similar spin-split electronic structures.
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Unconventional superconductivity in $A$V$_2X_2$O family of surface altermagnets
Theoretical analysis of AV2X2O oxychalcogenides predicts dominant equal-spin triplet superconductivity arising from altermagnetic order that forbids conventional singlet pairing.
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Termination-Preserved Ultra-high Tunneling Magnetoresistance in Altermagnetic KV2Se2O
K-terminated KV2Se2O altermagnetic tunnel junctions achieve TMR up to 10^12% by preserving bulk spin polarization through interfacial passivation and nodal-point spin channels.
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Pressure-Induced Superconducting-like Transition in the $\it d$-wave Altermagnet Candidate CsV$_2$Se$_2$O
Pressure suppresses the density-wave feature in the d-wave altermagnet candidate CsV2Se2O and induces a reproducible, field-suppressible resistive downturn below 3 K suggestive of superconductivity.